DarkDriving: A Real-World Day and Night Aligned Dataset for Autonomous Driving in the Dark Environment
Summary
DarkDriving is a new real-world benchmark dataset designed to advance research in low-light enhancement for autonomous driving. It comprises 9,538 precisely aligned day and night image pairs, collected from a 69-acre closed driving test field at Chang'an University. The dataset was created using a novel automatic Trajectory Tracking based Pose Matching (TTPM) method, which ensures alignment errors of only a few centimeters in both location and spatial content. Each image pair includes manually annotated 2D bounding boxes for objects, specifically cars. DarkDriving supports four perception tasks: low-light enhancement, generalized low-light enhancement, and low-light enhancement for 2D and 3D detection in dark environments. Experimental results demonstrate its effectiveness in improving image quality and promoting detection performance, even generalizing to other datasets like nuScenes.
Key takeaway
For research scientists developing vision-centric perception systems for autonomous vehicles, DarkDriving provides a critical resource for training and evaluating low-light enhancement models. You should leverage this dataset's precisely aligned day-night image pairs to develop more robust algorithms, particularly for improving 2D and 3D object detection in challenging nighttime conditions. This dataset can significantly reduce the day-night performance gap in your models.
Key insights
DarkDriving offers the first real-world dataset with precisely aligned day-night image pairs for autonomous driving.
Principles
- Precise day-night alignment is crucial for low-light enhancement.
- Real-world dynamic data improves generalization.
- Enhanced images boost perception system robustness.
Method
The Trajectory Tracking based Pose Matching (TTPM) method uses a high-precision map and autonomous vehicle control to ensure consistent day and night trajectories, followed by pose matching and human refinement for centimeter-level alignment.
In practice
- Use DarkDriving for supervised low-light enhancement training.
- Apply SNR-Aware for balanced image quality improvement.
- Fine-tune detectors with DarkDriving for robust 2D/3D detection.
Topics
- Autonomous Driving Datasets
- Low-light Image Enhancement
- Vision-centric Perception
- Object Detection
- Trajectory Tracking
Best for: Research Scientist, AI Researcher, AI Scientist, Computer Vision Engineer
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Editorial summary, takeaway, and curation by AIssential. Original article published by cs.CV updates on arXiv.org.